Researchers are engineering biochar-based composites to overcome limitations, such as insufficient adsorption capacity and limited selectivity for certain emerging pollutants. The new review highlights the importance of balancing treatment performance with environmental safety throughout the material's life cycle.
Flexible electromagnetic induction-type tactile sensors offer a promising route for low-power, robust and self-powered interfaces. The researchers provided a systematic roadmap for development, including application-oriented design and multimodal integration with other sensing mechanisms.
Researchers discovered bio-metals in the jaws of ancient sea worms, exhibiting properties like hardness and strain mechanics. The unique materials show similarities to metals but also have distinct mechanical properties.
Researchers have discovered a soft material that overcomes the trade-off between toughness and fatigue-resistance, making it stronger and more durable. The material's unique architecture enables repetitive energy dissipation mechanisms, allowing it to absorb energy without breaking.
Researchers have synthesized and determined the structure of a borate-linked 3D crystalline covalent organic framework, expanding the synthesis and implementation of highly ordered frameworks. The discovery paves the way for their use in advanced applications such as carbon sequestration, environmental remediation, and drug delivery.
Researchers develop a new strategy for producing negative thermal expansion (NTE) materials, enabling safer and more efficient synthesis. The approach combines reverse coprecipitation with oxidation in a single step, eliminating the need for harsh chemicals and reducing environmental impact.
Researchers at Martin-Luther-University Halle-Wittenberg have discovered a way to generate and control toroidal moments in carbon nanotori using computer simulations. This enables precise control of superconductors with minimal loss, opening up new possibilities for quantum computing.
A new method called DD-r²SCANH addresses the problem of underestimating band gaps in narrow-gap semiconductors. It combines two mathematical tools, r²SCAN and a smart algorithm, to predict dielectric constants more accurately.
A novel approach using silica microspheres encapsulates colorants in plastics, allowing for easy recycling and selective separation of colors. This technology enables the reuse of high-value resources from previously downcycled plastics, significantly reducing energy consumption and environmental impact.
A Korean research team created an underwater acoustic lens capable of focusing sound precisely at a desired point while reducing weight by about 40% compared to conventional designs. The findings have significant implications for underwater communication, marine environmental monitoring, and acoustic energy transfer.
Researchers compiled a comprehensive survey to improve rubber friction under lubrication, highlighting the importance of considering multiple factors. The study aims to promote integration of methods for improved friction and safety.
Researchers propose a framework to create adaptable, multifunctional bioinspired materials for harsh environments. By mimicking nature's designs, they aim to develop intelligent structural adhesion and friction materials that can operate across different environments.
Researchers discovered graphene can host multiple superconducting states, some persisting even in the presence of strong magnetic fields. The team found that certain experimental conditions could control the material's properties, leading to a new family of unconventional superconducting states.
Researchers reviewed current-carrying friction and wear models, noting mechanistic models rely on specific conditions, numerical simulations require computation, and AI approaches depend on high-quality data. The review aims to predict wear behavior accurately before damage occurs.
A team of researchers at Penn State developed a new design approach to reduce the cost of ultra-high-performance concrete (UHPC) by optimizing metallic fibers, which currently make up 70% of the material's price. The new design can help produce stronger and more environmentally friendly concrete while reducing costs.
A team of scientists observed Jahn–Teller polarons in cobalt oxide crystals activated by tailored laser pulses. The study reveals the material's structural, electrical, and magnetic properties can be engineered using ultrafast laser pulses.
Researchers have designed a material with an exceptionally broad zero-thermal-expansion temperature window, enabling stable performance in extreme temperatures. The novel crystal structure enhances flexibility and preserves negative thermal expansion at high temperatures.
Jorge Íñiguez-González leads a €2.5M ERC Advanced Grant project to explore reconfigurable materials with tunable properties. The research aims to create adaptive technologies for information storage and next-generation computing.
Researchers investigated phosphate double-bond character in solid and liquid phases using oxygen K-edge X-ray absorption spectroscopy. The study found that the double-bond character increased with increasing negative charge in the solid phase, but decreased in aqueous solutions due to interactions between phosphates and Na+ ions.
The EU project BRISA aims to test safe and clean industrial technologies that reduce risks to human health and biodiversity. The project will protect over 45,000 workers by 2035 and prevent hundreds of premature deaths each year.
Researchers introduce scaffold-microenvironment decoupling approach to construct hierarchically tough yet open polymer scaffolds with highly conductive microenvironments. The resulting hydrogel exhibits integrated properties, including high mechanical strength, ultra-high ionic conductivity, and practical efficacy in three demanding el...
Researchers observed quantum oscillations in YbB12 using ultrasonic measurements, revealing new insight into unusual quantum behavior. The findings suggest that sound waves interact more strongly with quasiparticles in the metallic phase.
Researchers have designed a clay material that can absorb and retain ethylene gas, slowing down the ripening process of fruits and vegetables. This innovation has the potential to reduce food waste and improve fruit flavor by allowing for later harvesting in the ripening process.
Researchers have identified a mechanism to improve energy efficiency by converting wasted heat into electricity using hollow silicon nanotubes. This technology has the potential to replace rare metals with abundant silicon, leading to more efficient thermoelectric devices.
A team of MIT researchers has developed a machine-learning approach that captures the diversity of atomic environments in chemically disordered materials. This allows for more accurate predictions of material properties and opens up possibilities for creating new sustainable steels and materials for aerospace, energy, and computing.
Scientists at the National Graphene Institute have captured the growth of semiconducting tellurium nanostructures in real time, revealing how tiny seed particles form and grow into nanowires. Adding bismuth seed particles can speed up the process and improve the structure's shape.
A study by Southeast University and Korea University provides a roadmap for converting biomass into renewable energy and chemicals. The researchers highlight the potential of biomass chemical looping (BCL) for producing hydrogen, methanol, and other low-carbon products.
Researchers discovered a synergistic effect of rare-earth elements on CMAS corrosion behavior, enabling enhanced resistance in (RE1/4Tm1/4Yb1/4Lu1/4)2Si2O7 materials at 1300 °C. The study provides valuable insights into the correlation mechanism between rare-earth components and final corrosion resistance.
Researchers developed a cobalt manganese spinel catalyst regulated by biochar to activate peroxymonosulfate, achieving higher degradation rates and improved selectivity than traditional systems. The new CoMn0.75/BC system showed strong practical potential, maintaining high imidacloprid removal efficiency across various pH ranges.
Dissolved black carbon's colloidal behavior can decide whether carbon and associated contaminants travel long distances or become trapped in sediments. Understanding this behavior is essential for predicting environmental risks and carbon cycling.
Researchers at MPI-SusMat discovered that adding specific metal oxides as catalytic precursors can double the reduction kinetics of hydrogen-based metal production, allowing for reduced energy use. This breakthrough enables lower reduction temperatures, shorter processing times, and reduced energy consumption.
James Dante, a leading expert in corrosion science, has been named Fellow of the Association for Materials Protection and Performance. He is renowned for developing laboratory test methods to predict corrosion and coating system degradation, and his work has been instrumental in standards development.
Researchers at Penn State developed photomemristors that adjust sensitivity based on light levels, like the human eye. These devices can process light data faster and more accurately than traditional systems in mixed lighting environments.
Ferroelectric thin films' thickness, strain state and domain architecture are influenced by van der Waals forces, which can be controlled through epitaxial growth on MoS2 substrates. This discovery enables the creation of higher-quality, larger thin films with improved performance.
Researchers at NINN and SOKENDAI develop a new strategy for synthesizing three-dimensional macrocycles in a square shape, featuring acid responsiveness and recyclability. The method uses an imine bond to create the shape, respond to stimuli, and revert back.
Scientists have developed a method to measure the electronic structures of liquid water and organic molecules using soft X-ray absorption spectroscopy. By controlling the thickness of the liquid layer, they obtained XAS spectra of both the bulk liquid and the solid-liquid interface.
Researchers have developed a new metal-organic framework (MOF) that captures 170 mg of water per gram at just 0.2% relative humidity, one of the highest water uptake capacities reported in such conditions. The material shows excellent stability and selectivity for water molecules over nitrogen.
Researchers introduce a photoisomeric additive that anchors mobile ions and stabilizes the material during UV exposure, improving device performance. The study shows improved film quality, reduced degradation, and enhanced power conversion efficiency.
A new study transforms spent coffee grounds into a high-performance, biodegradable thermal insulation material with potential applications in buildings and packaging. The material achieved comparable thermal conductivity to commercial expanded polystyrene and showed biodegradability under enzyme treatment.
Researchers developed smart-responsive superwettable materials for efficient oil-water separation, achieving high efficiency and reversibility. The materials combine selectivity of static membranes with adaptability of living biological systems.
The conference features parallel sessions covering electronic and information-processing materials, energy storage and conversion, biomaterials, high-performance metallic materials, AI-driven materials discovery, and advanced characterization techniques. Registration is now open for the event.
Researchers at University of Illinois have developed a new process to stack silicon layers, enabling faster and more efficient chips. By sequentially building each layer on top of the previous one, they achieved high device performance across multiple tiers while meeting thermal constraints.
Researchers develop novel microscopy technique to study energy materials, revealing electronic and magnetic phenomena on femtosecond and picosecond timescales. The technique enables spatially resolved imaging of ultrafast electro-magnetic phenomena across large fields of view.
A deep learning model combines knowledge from different catalyst families to identify a top-performing green hydrogen catalyst. The AI correctly predicted the activity ranking of 12 tested catalysts within a previously unexplored material family.
A European team has successfully observed the 'quantum metric' in a three-dimensional topological insulator, a unique geometric property that enables free electrical conductivity on its surface. This breakthrough could lead to better control of next-generation materials and pave the way for faster data transfer and superconductivity.
The University of Manchester is developing new technologies to recover valuable materials from hard-to-recycle waste, including disposable vapes and cars. The project aims to break down these materials at a molecular level and recover valuable components that can be reused.
The German Federal Institute for Risk Assessment presents a strategic research agenda for safe advanced materials, covering areas like data collection and state-of-the-art laboratories equipment. The initiative aims to inform policy makers and innovators on regulatory relevant research needs for safer materials.
A research team at CityUHK has designed a capillary structure that triggers the Leidenfrost effect, offering a practical solution for temperature-regulated heat transfer. The study reveals an ultra-low Leidenfrost point of 110°C, significantly reducing energy input and enabling frictionless motion applications.
Scientists have demonstrated that megalibraries can design materials with specific properties, accelerating the traditional trial-and-error approach to rapidly designing and testing materials. The platform generates vast datasets needed to train AI systems to discover next-generation materials.
Researchers at Kyoto University developed a porous polymer gel that selectively recognizes specific molecules through coordination chemistry, triggering visible color change and deformation. The gel's mechanical properties also strengthened upon recognition of guest molecules.
Researchers at Rice University have developed a method to pattern chips with nanoscale structures at room temperature, opening up new possibilities for integrating light-based technologies into future devices. The technique uses anisotropic crystals to create patterns in hard materials like silica.
Scientists at McGill University developed new composite materials by mimicking the natural adhesives and fibers found in mussels and mistletoe. These sustainable materials can be reused and have potential biomedical applications.
The Universitat Jaume I has secured funding for five research projects worth nearly one million euros to strengthen its research activity. These projects focus on improving neural networks, understanding memory, tackling antimicrobial resistance, developing new materials, and assessing the impact of air pollution on neurocognitive health.
Scientists directly capture collective excitations, known as Goldstone modes, which are associated with quantum phenomena like superconductivity. The researchers used optics to probe the space-and-time-resolved properties of the material and observed phenomena that had yet to be directly observed in condensed matter systems.
Researchers at the University of Bath discovered that a fungus can break down hard-to-recycle construction waste and turn it into sustainable insulation. The resulting biomaterial has comparable thermal performance to conventional insulation products with significantly lower carbon emissions.
Scientists have developed a new manufacturing method that preserves silk's crystalline structure, creating strong, transparent plastic-like materials. These materials can twist terahertz light and may enable components of 6G networks to be made from upcycled silk.
Researchers have discovered that prickly pear cactus fibers can be extracted and used to create sustainable composite materials. The fibers' natural structure provides a honeycomb-like support system, making them suitable for lightweight, low-load applications.
Researchers have developed a new computational workflow combining generative AI with atomistic simulations to identify promising platinum alloy catalyst structures for hydrogen fuel cells. The method produces high-performing candidates from several material combinations, addressing a longstanding challenge in catalyst design.
Researchers have successfully synthesized a carbon-free boron alternative to ferrocene, opening up new possibilities for future materials. The new compound has stronger bonding and shows that boron can mimic carbon's ability to form stable rings and complex structures.
Researchers have developed a method to program metamaterials using rotation, enabling the global setting of memory in mechanical systems. By harnessing forces arising from a rotating platform, elastic beams can be made to snap between two stable states, allowing for the storage and retrieval of binary information.